Proton's party pals may alter its internal structure
A recent experiment at the Department of Energy's Thomas Jefferson National Accelerator Facility has found that a proton's nearest neighbors in the nucleus of the atom may modify the proton's internal structure. view more (2009-11-19)
MSU scientists help lead teams in detection of fundamental component of matter
Michigan State University scientists and colleagues around the world took a step closer to understanding the universe with the discovery of a fundamental building block of nature. view more (2009-03-20)
Particle oddball surprises CDF physicists at Fermilab
Scientists of the CDF experiment at the Department of Energy's Fermi National Accelerator Laboratory announced yesterday (March 17) that they have found evidence of an unexpected particle whose curious characteristics may reveal new ways that quarks can combine to form matter. view more (2009-03-19)
Fermilab collider experiments discover rare single top quark
Scientists of the CDF and DZero collaborations at the Department of Energy's Fermi National Accelerator Laboratory have observed particle collisions that produce single top quarks. view more (2009-03-10)
Research team co-led by UC Riverside physicist observes production of single-top-quarks
A group of 28 scientists at the U.S. Department of Energy's Fermi National Accelerator Laboratory, co-led by UC Riverside's Ann Heinson, has made the first observation of the production of single top quarks - an observation that resulted from proton-antiproton collisions measured by the DZero detector in Fermilab's Tevatron, the world's... view more... (2009-03-10)
Brown physicists play key role in single top quark discovery
Brown University physicists have played a key role in observing particle collisions that produce a single top quark, one of the fundamental constituents of matter. The discovery was announced Monday by scientists of the CDF and DZero collaborations at the Department of Energy's Fermi National Accelerator Laboratory. view more (2009-03-10)
Fuzziness on the road to physics' grand unification theory
Leave it to hypothesized gravity to weigh down what physicists have thought for 30 years. If theoretical physicists, led by the University of Oregon's Stephen Hsu, are right, the idea that nature's forces merge under grand unification has grown fuzzy. view more (2008-10-07)
Moving Quarks Help Solve Proton Spin Puzzle
New theory work at the U.S. Department of Energy's Thomas Jefferson National Accelerator Facility has shown that more than half of the spin of the proton is the result of the movement of its building blocks: quarks. view more (2008-09-15)
U-M physicists' analysis leads to discovery of new particle
University of Michigan physicists played a leading role in the discovery of a new particle, the Omega b baryon, which is an exotic relative of the proton. view more (2008-09-11)
Iowa State scientists, students contribute to world's biggest science experiment
The first beam of protons will begin racing around the world's biggest science experiment on Wednesday, Sept. 10, and Iowa State University physicists will be part of the research team taking notes. view more (2008-09-09)
2,500 researchers, 1 supermachine, 1 new snapshot of the universe
Deep in the bowels of the earth -100 metres below ground in Geneva, Switzerland - lies a supermachine of 27 km circumference called the Large Hadron Collider (LHC) that has been built to unlock the mysteries of the universe. view more (2008-04-01)
Why matter matters in the universe
A new physics discovery explores why there is more matter than antimatter in the universe. view more (2008-03-31)
Were the first stars dark?
Perhaps the first stars in the newborn universe did not shine, but instead were invisible "dark stars" 400 to 200,000 times wider than the sun and powered by the annihilation of mysterious dark matter, a University of Utah study concludes view more (2007-12-03)
New particles get a mass boost
A sophisticated, new analysis has revealed that the next frontier in particle physics is farther away than once thought. New forms of matter not predicted by the Standard Model of particle physics are most likely twice as massive as theorists had previously calculated, according to a just-published study. view more (2007-10-02)
Tech researchers help find new sub-atomic particle - shollis
Six Louisiana Tech researchers in the physics department played a role in discovering a new sub-atomic particle whose existence was announced this week. view more (2007-06-18)
Princeton physicists connect string theory with established physics
String theory, simultaneously one of the most promising and controversial ideas in modern physics, may be more capable of helping probe the inner workings of subatomic particles than was previously thought, according to a team of Princeton University scientists. view more (2007-05-03)
Where has all the antimatter gone?
Scientists from the Universities of Liverpool and Glasgow have completed work on the inner heart of an experiment which seeks to find out what has happened to all the antimatter created at the start of the Universe. view more (2007-04-12)
DZero finds evidence of rare single top quark; Observation marks a step closer to finding Higgs boson
Scientists of the DZero collaboration at the Department of Energy's Fermi National Accelerator Laboratory announced in a seminar at Fermilab on December 8, 2006 the first evidence of single top quarks produced in a rare subatomic process involving the weak nuclear force. view more (2006-12-18)
UCR-led research team detects 'top quark,' a basic constituent of matter
A group of 50 international physicists, led by UC Riverside's Ann Heinson, has detected for the first time a subatomic particle, the top quark, produced without the simultaneous production of its antimatter partner - an extremely rare event. view more (2006-12-14)
JHU-led team discovers exotic relatives of protons and neutrons
A team of scientists, including four at The Johns Hopkins University, has discovered two new subatomic particles, rare but important relatives of the familiar, commonplace proton and neutron. view more (2006-11-17)
|
|
